Scientific computing,
from prototype notebooks to
production-grade solvers.
FaradayAnalytics designs, optimizes, and deploys
numerical algorithms for
PDEs, large-scale optimization, Monte Carlo simulation, and
data-driven models—bridging the gap between mathematical
theory and high-performance software.
Nonlinear PDE SolverFinite elements · Newton–Krylov · MPI
Converged in 7 iterations
Δt = 1e-3
Sparse stiffness matrix (A)
3.9e+3
-2.1e+2
0
0
-2.1e+2
4.2e+3
-2.0e+2
0
0
-2.0e+2
4.1e+3
-2.0e+2
0
0
-2.0e+2
3.8e+3
Residual norm vs iteration
Newton–Krylov
Preconditioned
Tolerance
Core capabilities
We combine rigorous numerical analysis with modern engineering practices—
from Python prototyping to C++ and GPU-accelerated implementations.
PDE & continuum simulation
Design and implementation of robust solvers for elliptic,
parabolic, and hyperbolic PDEs using finite difference, finite
element, or finite volume schemes.
FEM / FVMMultigridAdaptive time-stepping
Large-scale optimization
Numerical optimization for inverse problems, calibration, and
control: gradient-based and derivative-free methods on CPU & GPU.
Quasi-NewtonAD-enabledConstrained solvers
Uncertainty & Monte Carlo
High-throughput Monte Carlo, variance reduction, and
surrogate-based UQ for risk analysis and sensitivity studies.
MCMCSurrogatesSobol indices
High-performance computing
Parallelization (MPI, OpenMP, CUDA) and performance tuning for
existing simulation codes and workflows.
MPI / distributedGPU offloadProfiling & tuning
Data-driven numerical models
Hybrid ML + physics workflows—PINNs, reduced-order models, and
system identification anchored in domain equations.
PINNsROMsOperator learning
End-to-end consulting
From feasibility studies and algorithm selection to production
deployment and documentation for your team.
Tech due diligenceCode reviewTraining
Where we add the most value
FaradayAnalytics works with engineering and research teams that
already have strong domain expertise and need
numerical reliability, performance, and clarity.
When prototypes won't scale
You have working notebooks or scripts, but runtimes explode
or numerical artifacts appear at realistic problem sizes.
When physics and data need to agree
You want models that respect governing equations while
integrating empirical data and modern machine learning.
When decisions depend on accuracy
Regulatory, safety, or financial decisions hinge on
quantified uncertainty and well-behaved numerical schemes.
Computational engineering
Structural mechanics, fluid flow, heat transfer, and
multi-physics coupling across time and length scales.
Energy & climate modeling
Power systems, grid simulation, subsurface flow, and
climate-impact scenario analysis.
Quantitative finance & risk
PDE-based pricing, stochastic differential equations, and
Monte Carlo engines tuned for latency and throughput.
R&D and applied science
Support for internal research groups that need an
implementation partner for complex numerical ideas.
Talk to FaradayAnalytics
Share a brief about your numerical challenge
Describe your equations, data, and constraints. We typically
respond with an initial technical assessment and potential
solution paths within a few business days.
Prefer email? Use:
contact@faradayanalytics.example
(replace with your real address).